Abstract: A system and method for optimizing utilization of a plurality of energy sources of a power site are provided. The optimization can involve receiving a weather forecast and expected power output for a predefined time duration, and a power source for one or more time intervals to provide output power for the power site. The determination can be based on a future weather forecast and expected power output. The optimization can involve minimizing an amount of time that generator(s) are the power source and maximizing an amount of time that solar panel(s) are the power source.

Abstract: A system and method for optimizing utilization of a plurality of energy sources of a power site are provided. The optimization can involve receiving a weather forecast and expected power output for a predefined time duration, and a power source for one or more time intervals to provide output power for the power site. The determination can be based on a future weather forecast and expected power output. The optimization can involve minimizing an amount of time that generator(s) are the power source and maximizing an amount of time that solar panel(s) are the power source.

Abstract: A system and method for optimizing utilization of a plurality of energy sources of a power site are provided. The optimization can involve receiving a weather forecast and expected power output for a predefined time duration, and a power source for one or more time intervals to provide output power for the power site. The determination can be based on a future weather forecast and expected power output. The optimization can involve minimizing an amount of time that generator(s) are the power source and maximizing an amount of time that solar panel(s) are the power source.

Abstract: A system and method for optimizing utilization of a plurality of energy sources of a power site are provided. The optimization can involve receiving a weather forecast and expected power output for a predefined time duration, and a power source for one or more time intervals to provide output power for the power site. The determination can be based on a future weather forecast and expected power output. The optimization can involve minimizing an amount of time that generator(s) are the power source and maximizing an amount of time that solar panel(s) are the power source.

Abstract: A monitoring circuit configured to be installed within a rechargeable battery, wherein the monitoring circuit is initially configured to function in a storage mode and consume minimal current, wherein the monitoring circuit in storage mode is configured to identify if the rechargeable battery is deployed in a consumer system, then the monitoring circuit changes to a consumer mode in which the monitoring circuit samples the status of the rechargeable battery based on a sensor and/or a global positioning chip, records information of sampling the status in the memory and periodically communicates with a server to transmit the recorded information and receive instructions from the server, wherein in consumer mode if the processor identifies an abnormal event the monitoring circuit changes to function in a movement mode in which it continuously communicates the location of the monitoring circuit to the server.

Abstract: A system for dealing with rechargeable batteries, including a computerized server, a monitoring circuit installed in a rechargeable battery and configured to periodically sample the status of the rechargeable battery and communicate the sampled information to the server, wherein the server analyzes the sampled information from the monitoring circuits of one or more rechargeable batteries and provides instructions for dealing with each rechargeable battery to a communication device of an administrator in charge of dealing with each rechargeable battery.

Abstract: A system for dealing with rechargeable batteries, including a computerized server, a monitoring circuit installed in a rechargeable battery and configured to periodically sample the status of the rechargeable battery and communicate the sampled information to the server, wherein the server analyzes the sampled information from the monitoring circuits of one or more rechargeable batteries and provides instructions for dealing with each rechargeable battery to a communication device of an administrator in charge of dealing with each rechargeable battery.

Abstract: A monitoring circuit configured to be installed within a rechargeable battery, wherein the monitoring circuit is initially configured to function in a storage mode and consume minimal current, wherein the monitoring circuit in storage mode is configured to identify if the rechargeable battery is deployed in a consumer system, then the monitoring circuit changes to a consumer mode in which the monitoring circuit samples the status of the rechargeable battery based on a sensor and/or a global positioning chip, records information of sampling the status in the memory and periodically communicates with a server to transmit the recorded information and receive instructions from the server, wherein in consumer mode if the processor identifies an abnormal event the monitoring circuit changes to function in a movement mode in which it continuously communicates the location of the monitoring circuit to the server.